Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A sound output system comprising: a receiving apparatus comprising receiving circuitry configured to receive a user input; and a sound apparatus comprising circuitry configured to receive the user input from the receiving apparatus and to perform an operation in response to the user input received from the receiving apparatus, wherein the sound apparatus comprises: a sound outputter comprising sound output circuitry; a first communicator comprising communication circuitry configured to communicate with the receiving apparatus; and a controller configured to control the sound apparatus to perform the operation based on the user input received from the receiving apparatus through the first communicator, and wherein the receiving apparatus is removably attachable to the sound apparatus, and the sound apparatus is configured to perform different operations based on different attachment positons of the receiving apparatus relative to the sound apparatus, in response to a same user input.
A sound output system includes a receiving apparatus and a sound apparatus. The receiving apparatus has circuitry to receive user inputs, such as touch or button presses. The sound apparatus includes sound output circuitry, communication circuitry to exchange data with the receiving apparatus, and a controller to process user inputs. The receiving apparatus can be physically attached to the sound apparatus in different positions, and the sound apparatus performs different operations based on the attachment position, even when the same user input is received. For example, attaching the receiving apparatus in one position might trigger a volume adjustment, while attaching it in another position might activate a different function like playback control. The system allows flexible user interaction by leveraging both the input from the receiving apparatus and its physical attachment state to determine the appropriate response. This design enables dynamic functionality without requiring additional hardware or complex user interfaces.
2. The sound output system according to claim 1 , wherein the user input comprises a voice command, wherein the receiving apparatus is configured to transmit the voice command to the sound apparatus, and wherein the controller is configured to recognize the voice command received from the receiving apparatus and to control the sound apparatus to perform the operation based on the recognized voice command.
A sound output system is designed to enhance user interaction with audio devices through voice commands. The system includes a sound apparatus, a receiving apparatus, and a controller. The sound apparatus generates audio output, while the receiving apparatus captures user input, such as voice commands, and transmits them to the sound apparatus. The controller processes the received voice commands, interprets their meaning, and directs the sound apparatus to execute corresponding operations, such as adjusting volume, changing tracks, or activating specific functions. This voice-controlled functionality eliminates the need for manual input, improving convenience and accessibility. The system ensures seamless communication between the receiving apparatus and the sound apparatus, allowing real-time response to user instructions. By integrating voice recognition, the system provides an intuitive and hands-free method for controlling audio devices, addressing the challenge of cumbersome physical interfaces in traditional sound systems. The technology is particularly useful in environments where manual operation is impractical, such as while driving or in smart home applications. The system's efficiency and responsiveness enhance user experience by enabling quick and accurate execution of commands through natural language processing.
3. The sound output system according to claim 2 , wherein the sound apparatus further comprises: a second communicator comprising communication circuitry configured to communicate with a user apparatus, and wherein the controller is configured to control the second communicator to transmit the voice command to the user apparatus and to receive the voice command recognized by the user apparatus from the user apparatus through the second communicator.
This invention relates to a sound output system designed to enhance voice command processing in audio devices. The system addresses the challenge of accurately recognizing and executing voice commands in environments where the sound apparatus itself may not have sufficient processing power or capabilities for robust voice recognition. The sound apparatus includes a microphone for capturing voice commands and a controller for processing these commands. The controller is configured to transmit the captured voice command to an external user apparatus, such as a smartphone or smart speaker, for recognition. The user apparatus processes the voice command and sends the recognized command back to the sound apparatus, which then executes the command. The system ensures reliable voice command execution by leveraging the processing power of the user apparatus, improving accuracy and functionality in environments where the sound apparatus alone may struggle with voice recognition tasks. The communication between the sound apparatus and the user apparatus is facilitated by a dedicated communicator, which may use wireless or wired communication protocols to ensure seamless data transfer. This approach enhances the versatility and performance of sound output systems in various applications, including smart home devices, audio systems, and wearable technology.
4. The sound output system according to claim 2 , wherein the sound apparatus further comprises: a second communicator comprising communication circuitry configured to communicate with a plurality of electronic devices, and wherein the controller is configured to control the second communicator to transmit the recognized voice command to at least one of the plurality of electronic devices.
This invention relates to a sound output system designed to enhance voice command processing in smart environments. The system addresses the challenge of efficiently routing voice commands to multiple electronic devices in a networked environment, ensuring seamless interaction and control. The sound output system includes a sound apparatus with a microphone array for capturing audio input, a voice recognition unit for processing and recognizing voice commands, and a controller for managing system operations. The system further incorporates a second communicator with communication circuitry that enables bidirectional communication with multiple electronic devices, such as smart home appliances, entertainment systems, or other networked devices. When a voice command is detected, the voice recognition unit processes the audio input to identify and recognize the command. The controller then directs the second communicator to transmit the recognized voice command to at least one of the connected electronic devices. This allows the system to dynamically route commands to the appropriate devices based on context, user preferences, or predefined rules, improving responsiveness and usability in smart environments. The system may also include a first communicator for receiving audio data from external sources, such as streaming services or other devices, ensuring comprehensive audio input handling. The integration of these components enables efficient voice command processing and distribution, enhancing user interaction with multiple electronic devices in a connected ecosystem.
5. The sound output system according to claim 2 , wherein the sound apparatus further comprises: a second communicator comprising communication circuitry configured to communicate with a plurality of electronic devices, and wherein the controller is configured to receive the voice command and information about the electronic device to which the receiving apparatus is attached through the first communicator and to transmit the recognized voice command to the electronic device to which the receiving apparatus is attached through the second communicator.
This invention relates to a sound output system designed to enhance voice command processing in environments with multiple electronic devices. The system addresses the challenge of accurately routing voice commands to the correct device in a multi-device setup, ensuring seamless interaction without manual selection. The sound output system includes a sound apparatus with a microphone array for capturing voice commands and a controller for processing these commands. The controller analyzes the voice input to recognize and interpret the command. The system further includes a first communicator, which may be a wireless or wired interface, enabling the sound apparatus to receive voice commands and device-specific information from an external source, such as a central hub or another electronic device. Additionally, the sound apparatus features a second communicator with communication circuitry that allows it to interact with multiple electronic devices. The controller is configured to receive both the voice command and details about the specific electronic device to which the receiving apparatus (e.g., a microphone or sensor) is attached. Using this information, the controller transmits the recognized voice command directly to the intended electronic device via the second communicator, ensuring the command is executed by the correct device in the network. This setup eliminates the need for manual device selection, improving user convenience and efficiency in multi-device environments.
6. The sound output system according to claim 5 , wherein the information about the electronic device to which the receiving apparatus is attached includes electrical properties and/or magnetic properties of the electronic device, and wherein the controller is configured to identify the electronic device to which the receiving apparatus is attached by comparing the electrical properties and/or magnetic properties of the electronic device with electrical properties and/or magnetic properties previously stored in a memory.
A sound output system includes a receiving apparatus that attaches to an electronic device, such as a smartphone or tablet, to enhance audio output. The system addresses the challenge of ensuring compatibility and optimal performance when connecting to different electronic devices, which may have varying electrical and magnetic properties that affect sound quality and functionality. The receiving apparatus includes a controller that identifies the attached electronic device by analyzing its electrical and magnetic properties. These properties, such as impedance, voltage levels, or magnetic field characteristics, are compared against a database of pre-stored properties for known devices. This identification process allows the system to automatically adjust settings, such as equalization, amplification, or power management, to match the specific characteristics of the connected device. The system may also include a memory for storing the pre-stored properties and a communication interface for transmitting the identified device information to other components. By dynamically recognizing the attached device, the sound output system ensures consistent and high-quality audio performance across different electronic devices.
7. The sound output system according to claim 1 , wherein the user input comprises a plurality of voice commands, wherein the receiving apparatus is configured to transmit the plurality of voice commands to the sound apparatus, and wherein the controller is configured to recognize the plurality of voice commands received through the first communicator and to control the sound apparatus to perform a plurality of operations based on the recognized plurality of voice commands.
A sound output system is designed to process and execute multiple voice commands for controlling audio playback and related functions. The system includes a receiving apparatus that captures voice inputs from a user, which may consist of multiple sequential or simultaneous voice commands. These commands are transmitted to a sound apparatus, which contains a controller capable of recognizing and interpreting the received voice commands. The controller then directs the sound apparatus to perform various operations based on the recognized commands, such as adjusting volume, selecting audio tracks, or activating specific playback modes. The system ensures efficient handling of multiple voice inputs, allowing users to control audio functions without manual intervention. The receiving apparatus and sound apparatus communicate wirelessly or via wired connections, enabling flexible deployment in home or professional audio setups. The system enhances user convenience by supporting complex voice-based interactions, reducing the need for physical controls or separate input devices.
8. The sound output system according to claim 1 , wherein the user input comprises a voice command, wherein the receiving apparatus is configured to transmit the voice command to a user apparatus, to receive the voice command recognized by the user apparatus from the user apparatus, and to transmit the recognized voice command to the sound apparatus, and wherein the controller is configured to control the sound apparatus to perform the operation based on the voice command received from the receiving apparatus.
A sound output system is designed to process and execute voice commands for controlling audio operations. The system includes a receiving apparatus that captures user input, specifically voice commands, and a sound apparatus that performs audio-related functions. The receiving apparatus transmits the voice command to a user apparatus, which recognizes and processes the command. The recognized voice command is then sent back to the receiving apparatus, which forwards it to the sound apparatus. A controller within the system interprets the recognized voice command and directs the sound apparatus to execute the corresponding operation, such as adjusting volume, selecting audio tracks, or activating specific playback modes. This configuration enables seamless integration of voice control into audio systems, enhancing user convenience by allowing hands-free operation. The system ensures accurate command processing by leveraging the user apparatus for recognition, reducing the computational load on the receiving apparatus and sound apparatus. This approach improves responsiveness and reliability in voice-activated audio environments.
9. A voice processing method comprising: receiving, by a receiving apparatus, a user input; and performing, by a sound apparatus, an operation in response to the user input received by the receiving apparatus, wherein the receiving apparatus is removably attachable to the sound apparatus, and the performing of the operation comprises performing different operations based on different attachment positions of the receiving apparatus relative to the sound apparatus, in response to a same user input.
This invention relates to voice processing systems where a receiving apparatus, such as a microphone or input device, is removably attached to a sound apparatus, such as a speaker or audio output device. The problem addressed is the lack of flexibility in voice-controlled systems where the same user input triggers different operations based on the physical configuration of the system. The invention enables dynamic functionality by varying the operation performed in response to the same user input depending on the attachment position of the receiving apparatus relative to the sound apparatus. For example, attaching the receiving apparatus in one position may trigger a volume adjustment, while attaching it in another position may activate a different function like playback control. The system interprets the user input differently based on the detected attachment configuration, allowing for context-aware voice commands without requiring additional input. This approach enhances user convenience by reducing the need for complex or repetitive commands while adapting to different usage scenarios. The invention is particularly useful in portable or modular audio systems where the physical arrangement of components can change.
10. The method according to claim 9 , wherein the user input comprises a voice command, and wherein the performing of the operation comprises: receiving, by the sound apparatus, the voice command from the receiving apparatus; recognizing the voice command received from the receiving apparatus; and performing the operation based on the recognized voice command.
This invention relates to voice-controlled systems for performing operations in response to user commands. The problem addressed is the need for efficient and accurate voice command processing in devices that receive and interpret spoken instructions to execute specific functions. The system includes a sound apparatus and a receiving apparatus that captures and processes voice commands. The sound apparatus receives a voice command from the receiving apparatus, recognizes the command through speech recognition, and performs a corresponding operation based on the recognized input. The receiving apparatus may be a microphone or another input device that transmits the voice command to the sound apparatus. The system ensures seamless interaction by converting spoken instructions into executable actions, improving user convenience and accessibility. The method enhances voice-controlled systems by integrating robust command recognition and execution, making it suitable for applications in smart home devices, virtual assistants, and other interactive systems. The invention focuses on improving the reliability and responsiveness of voice-based control mechanisms.
11. The method according to claim 10 , wherein the performing of the operation comprises: transmitting, by the sound apparatus, the voice command to a user apparatus; and performing the operation in response to the voice command recognized by the user apparatus.
This invention relates to voice command processing in sound apparatuses, addressing the challenge of efficiently executing operations based on voice commands. The system involves a sound apparatus that receives a voice command and processes it to determine an operation to perform. The sound apparatus includes a microphone for capturing the voice command and a processor for recognizing the command and identifying the corresponding operation. The processor may use speech recognition techniques to interpret the voice command and map it to a predefined operation. The sound apparatus may also include a communication module to transmit the voice command to a user apparatus, which then recognizes the command and performs the operation. The user apparatus may be a separate device, such as a smartphone or smart speaker, that processes the voice command and sends a confirmation or instruction back to the sound apparatus. This distributed approach allows for more advanced voice recognition capabilities while leveraging existing user devices. The system ensures that operations are executed accurately and efficiently, whether processed locally or remotely.
12. The method according to claim 10 , wherein the performing of the operation comprises: transmitting, by the sound apparatus, the recognized voice command to at least one of a plurality of electronic devices.
This invention relates to voice command processing in a system with multiple electronic devices. The problem addressed is efficiently routing recognized voice commands to the appropriate device in a multi-device environment. The system includes a sound apparatus that captures and processes voice commands from a user. The sound apparatus recognizes the voice command and determines the intended operation. The method involves performing the operation by transmitting the recognized voice command to at least one of several electronic devices. The sound apparatus may select the target device based on the command content, device capabilities, or user preferences. This ensures the command is executed by the correct device without requiring the user to specify the target device explicitly. The system may also include additional processing steps such as filtering background noise, converting speech to text, or analyzing command intent before transmission. The invention improves user convenience by simplifying multi-device voice control in smart home or office environments.
13. The method according to claim 10 , wherein the performing of the operation comprises: receiving, by the sound apparatus, information about an electronic device to which the receiving apparatus is attached and the voice command; and transmitting the recognized voice command to the electronic device to which the receiving apparatus is attached.
This invention relates to voice command processing in electronic devices, particularly where a sound apparatus receives and processes voice commands for attached electronic devices. The problem addressed is the need for efficient and accurate transmission of voice commands from a sound apparatus to an attached electronic device, ensuring seamless integration and functionality. The method involves a sound apparatus that performs an operation by first receiving information about an attached electronic device and the voice command itself. The sound apparatus then processes the voice command, recognizing and interpreting it before transmitting the recognized command to the specific electronic device to which it is attached. This ensures that the command is accurately relayed to the correct device, enabling proper execution. The sound apparatus may also include a receiving apparatus that captures the voice command, which is then processed and transmitted to the intended electronic device. This method enhances the interoperability between the sound apparatus and the attached electronic device, improving user experience by ensuring commands are correctly interpreted and executed. The invention is particularly useful in systems where multiple devices are connected, requiring precise command routing to the appropriate device.
14. The method according to claim 13 , wherein the information about the electronic device to which the receiving apparatus is attached includes electrical properties and/or magnetic properties of the electronic device, and the method further comprises: identifying, by the sound apparatus, the electronic device to which the receiving apparatus is attached by comparing the electrical properties and/or magnetic properties of the electronic device with the electrical properties and/or magnetic properties previously stored in a memory.
This invention relates to a method for identifying an electronic device to which a receiving apparatus is attached, using electrical and/or magnetic properties. The method involves a sound apparatus that detects and analyzes these properties to determine the specific electronic device. The sound apparatus compares the detected electrical and/or magnetic properties with pre-stored data in a memory to match and identify the device. This approach enables precise identification of the electronic device based on its unique electrical and/or magnetic characteristics, which can be used for various applications such as device authentication, compatibility checks, or system integration. The method leverages the inherent properties of the electronic device, eliminating the need for additional identification markers or manual input. This enhances efficiency and accuracy in device recognition, particularly in automated systems where quick and reliable identification is crucial. The stored properties in the memory serve as a reference database, allowing the sound apparatus to cross-check and confirm the identity of the attached electronic device. This technique can be applied in scenarios where devices are dynamically connected or where identification must be performed without direct user intervention.
15. The method according to claim 9 , wherein the user input comprises a plurality of voice commands, and wherein the performing of the operation comprises: receiving, by the sound apparatus, the plurality of voice commands from the receiving apparatus; recognizing the plurality of voice commands received from the receiving apparatus; and performing operations based on the recognized plurality of voice commands.
This invention relates to a voice-controlled system for performing operations based on multiple voice commands. The system addresses the challenge of efficiently processing and executing sequential or simultaneous voice commands in environments where users interact with sound apparatuses, such as smart speakers or audio devices, through a receiving apparatus, such as a microphone or remote device. The method involves a sound apparatus that receives a plurality of voice commands from a receiving apparatus. The sound apparatus processes these commands by recognizing and interpreting them. Once recognized, the sound apparatus performs operations corresponding to the voice commands. The operations may include controlling device functions, executing tasks, or interacting with other connected systems. The system ensures that multiple voice commands are accurately captured, interpreted, and acted upon, improving user convenience and system responsiveness in voice-controlled environments. The method may also include additional steps such as filtering background noise, prioritizing commands, or confirming command execution to enhance accuracy and user experience.
16. The method according to claim 9 , wherein the user input comprises a plurality of voice commands, and the method further comprises: transmitting, by the receiving apparatus, the voice command to a user apparatus; receiving the voice command recognized by the user apparatus from the user apparatus; transmitting the recognized voice command to the sound apparatus; and performing, by the sound apparatus, the operation based on the voice command received from the receiving apparatus.
This invention relates to a voice command processing system for controlling sound apparatuses, such as speakers or audio devices, through a network. The system addresses the challenge of efficiently relaying and executing voice commands across multiple devices in a distributed environment. The method involves a receiving apparatus that collects user input, which includes multiple voice commands. These commands are transmitted to a user apparatus, which recognizes and processes the voice input. The recognized voice command is then sent back to the receiving apparatus, which forwards it to the sound apparatus. The sound apparatus executes the operation corresponding to the received voice command, such as adjusting volume, changing tracks, or powering on/off. The system ensures seamless communication between devices, allowing users to control audio functions remotely. The method may also involve additional steps like authenticating the user apparatus or verifying the voice command before execution. The invention improves user convenience by enabling voice-controlled operations across interconnected devices without requiring direct interaction with the sound apparatus.
17. A sound output system comprising: a receiving apparatus comprising receiving circuitry configured to receive a user voice command; and a sound apparatus comprising circuitry configured to receive the user voice command from the receiving apparatus and to operate based on the user voice command received from the receiving apparatus, wherein the receiving apparatus comprises: a microphone configured to receive the user voice command; a communicator comprising communication circuitry configured to communicate with the receiving apparatus; an attachment position detector comprising detecting circuitry configured to collect information about a positon to which the receiving apparatus is attached relative to the sound apparatus; and a controller configured to control the communicator to transmit the information about the position to which the receiving apparatus is attached and the user voice command to the sound apparatus.
This invention relates to a sound output system designed to improve voice command functionality in audio devices. The system addresses the challenge of accurately processing voice commands when a microphone is positioned at a distance from the sound apparatus, such as in a home theater setup or multi-speaker system. The system includes a receiving apparatus and a sound apparatus. The receiving apparatus contains a microphone to capture user voice commands and an attachment position detector to determine its position relative to the sound apparatus. This positional data, along with the voice command, is transmitted to the sound apparatus via a communicator. The sound apparatus processes the voice command and adjusts its operation accordingly, such as volume control, playback, or other functions. The positional information helps optimize voice command accuracy by accounting for microphone placement, ensuring reliable command execution even when the microphone is not directly integrated into the sound apparatus. The system enhances user convenience by allowing flexible microphone placement while maintaining robust voice control capabilities.
18. The sound output system according to claim 17 , wherein the information about the position comprises at least one of electrical properties and magnetic properties of the position to which the receiving apparatus is attached.
A sound output system is designed to provide directional audio output by determining the position of a receiving apparatus, such as a headset or speaker, relative to a sound source. The system includes a transmitting apparatus that emits a signal, which is received by the receiving apparatus. The receiving apparatus processes the signal to determine its position based on electrical or magnetic properties of the attachment point. These properties may include impedance, inductance, capacitance, or magnetic field strength, which vary depending on the position. By analyzing these properties, the system can accurately track the receiving apparatus's location and adjust the audio output accordingly. This ensures that sound is directed precisely to the intended listener, improving audio clarity and reducing interference. The system is particularly useful in environments where precise audio positioning is required, such as in virtual reality, augmented reality, or immersive audio applications. The use of electrical or magnetic properties allows for reliable and efficient position tracking without the need for complex sensors or additional hardware.
19. The sound output system according to claim 17 , wherein the attachment position detector is configured to detect electrical properties and/or magnetic properties of the position to which the receiving apparatus is attached, and wherein the controller is configured to identify the position to which the receiving apparatus is attached by comparing the electrical properties and/or magnetic properties with the electrical properties and/or magnetic properties previously stored in a memory.
A sound output system includes a receiving apparatus that can be attached to different positions on a user's body or clothing, such as a head, chest, or waist. The system detects the attachment position of the receiving apparatus by analyzing electrical and/or magnetic properties at the attachment point. These properties are compared against pre-stored data in a memory to determine the exact position. The system then adjusts sound output parameters, such as volume, frequency response, or spatial audio effects, based on the detected position to optimize audio quality and user experience. For example, if the receiving apparatus is attached to the chest, the system may enhance bass frequencies, while attachment to the head may prioritize clarity and spatial accuracy. The system may also include a controller that processes the detected properties and selects the appropriate sound settings from a predefined set of configurations. The memory stores reference electrical and magnetic property profiles for different attachment positions, allowing the system to accurately identify the current position and apply the corresponding audio adjustments. This ensures consistent and optimized sound performance regardless of where the receiving apparatus is worn.
20. The sound output system according to claim 17 , wherein the sound apparatus is configured to perform different operations in response to the same user voice command based on different attachment positions to which the receiving apparatus is attached.
This invention relates to a sound output system designed to enhance user interaction with a sound apparatus by enabling context-aware voice command processing. The system addresses the problem of limited functionality in traditional sound devices, where voice commands typically trigger the same response regardless of the device's physical context or attachment position. The invention introduces a sound apparatus that dynamically adjusts its operations based on the attachment position of a receiving apparatus, allowing the same voice command to produce different outcomes depending on where the receiving apparatus is mounted. The receiving apparatus detects its attachment position and communicates this information to the sound apparatus, which then selects the appropriate operation from a predefined set of responses. This adaptability improves user convenience by tailoring the device's behavior to its physical environment, eliminating the need for multiple commands or manual adjustments. The system may include additional features such as wireless communication between components, positional sensors, and configurable response profiles to further enhance flexibility. The invention is particularly useful in smart home devices, wearable technology, and other applications where contextual awareness improves usability.
Unknown
October 13, 2020
Browse 5M+ US patents with plain-English claim translations and AI-generated analysis.